Clinical trials follow strict rules to make sure treatments are safe and work well. But finding patients who fit the rules can be hard. People often have to look through records by hand, use ads, or ask doctors for referrals. This takes a lot of time, costs money, and can lead to mistakes. Also, not having enough participants or not having a wide mix of people can cause problems. It can delay drug approval and affect the study’s results.
Making a new drug costs about $2.6 billion, and about 90% of drugs fail in trials. Finding patients for trials alone costs about $879 million. If recruiting takes too long, trials become more expensive and patients wait longer for new treatments.
Medical centers often have many patients and many tasks to handle. Finding the right patients on time affects how well doctors and researchers can do their work.
Artificial intelligence (AI), like machine learning and natural language processing, can quickly sort through lots of complex data. For example, the National Institutes of Health (NIH) developed an AI called TrialGPT. It looks at patient details, such as medical history and other data, and compares them with trial rules from ClinicalTrials.gov.
TrialGPT matches patients to trials with almost the same accuracy as doctors and does this 40% faster. This lets doctors spend more time caring for patients instead of checking if they fit trial rules by hand.
AI helps handle complicated rules, lowers errors, and speeds up recruiting. Research also shows AI can help include more diverse patients who usually don’t take part in trials.
In cancer and other fields, AI improves how well patients are matched to studies by using different data types, like genetics and health records. For example, Tempus is a company that works with many U.S. hospitals. It uses clinical and molecular data to find patients who may join trials and get personalized treatments. They have helped find more than 30,000 patients and work with over half of the country’s cancer doctors.
AI stops people who don’t qualify from being in trials and finds patients missed by older methods. This helps more people join trials and makes sure the group of patients is more like the entire population.
AI also looks at how sick people are to make sure trials are fair. It groups patients with similar symptoms. This lowers bias that might change the results.
AI saves time when signing up patients, which is very important for doctors and drug companies that want trials to finish faster. Companies like Novartis say their enrollment times got 10% to 15% shorter with AI tools. This cuts costs and helps new drugs reach patients sooner.
Tools like the Automated Clinical Trial Eligibility Scanner raise patient screening by almost 15%, increase enrollment by over 11%, and cut screening time by about one-third compared to doing it by hand. This is helpful because 1 in 5 studies has trouble getting enough patients, which hurts the study’s quality.
By using AI, clinical staff have more time, and healthcare centers can run better and use resources more wisely.
Combining AI with workflow automation helps healthcare run clinical trials better. AI tools don’t only match patients but also handle daily tasks like answering calls, setting appointments, and entering data.
Companies like Simbo AI use AI-powered phone services to manage many patient calls about trials and treatments. These systems sort calls, schedule meetings, and answer questions fast. This cuts wait times and makes patients happier. Healthcare workers can then focus on patients who are already pre-filtered by AI.
AI also helps by linking with electronic health records (EHR) to pull out and analyze patient data automatically. This lowers mistakes and saves work. Decision support systems can notify doctors about trials that fit their patients, making recruitment better.
Using AI with workflow automation helps healthcare stay efficient while including more patients in trials.
AI also helps watch patients in real time using wearable devices and smart sensors. This means doctors can follow treatment effects and side effects right away, even from far away. This is good for patient safety and helps make sure patients follow the trial rules.
For example, AI can create digital twins or virtual patient groups to simulate trials. This can lower how many patients are needed, speed up recruiting, and still keep good results.
Real-time tracking helps find patients who might have bad reactions early. Trial teams can then change the plan quickly to keep patients safe. This means fewer doctor visits and less stress for patients, making the trial easier to go through.
As AI is used more in trials, protecting patient privacy and acting ethically becomes very important. AI systems have to follow rules like HIPAA, which protect health information.
People worry AI might be biased against some groups. So, companies check their AI systems to make sure they are fair and give everyone access to trials. Being open about how AI works helps build trust with patients and doctors.
Privacy tools like data encryption and systems like swarm learning let groups work on AI models without sharing private patient data. This helps solve problems with competition and rules, allowing AI to be used more in research.
AI will keep improving how patients are found for clinical trials. AI tools that read patient data and trial rules will be common in research. Big clinical networks may use AI to combine data from many places, which helps make trials more diverse and data better.
Wearable devices and real-world data will work with AI to allow decentralized trials. This means patients won’t have to travel far and can join trials from home. Predictive models will get better and help pick patients who are likely to finish trials.
Healthcare leaders and IT teams in the U.S. will need to use these new technologies to run trials well and follow laws. Investing in AI and training staff will help both hospitals and patients.
Medical practice managers, owners, and IT staff who use AI in clinical trials can improve how well their work competes, offer better patient care, and help research move forward faster in the U.S. health system. Using AI with workflow tools can turn slow recruiting into smooth processes that help patients, doctors, and researchers.
AI-enabled precision medicine uses artificial intelligence to enhance patient care by accelerating the discovery of new treatment targets, predicting treatment effectiveness, and identifying suitable clinical trials, ultimately allowing for earlier diagnoses of various diseases.
AI can help healthcare providers make more informed treatment decisions by analyzing large volumes of data, identifying care gaps, and providing tailored insights that lead to better patient outcomes.
AI can efficiently handle high call volumes, reducing wait times for patients, streamlining appointment scheduling, and improving overall patient engagement, which enhances the patient experience.
AI assists in clinical trial matching by analyzing patient data and identifying individuals who may qualify for specific trials, increasing the chances of successful enrollment and outcomes.
Tempus partners with over 95% of the top 20 pharmaceutical companies in oncology by providing molecular profiling and data-driven insights to enhance drug development and treatment personalization.
Tempus utilizes multimodal real-world data, including genomic, clinical, and behavioral data, helping to provide comprehensive insights into patient care and treatment options.
AI improves patient care by enabling high-quality testing, efficient trial matching, and deep analysis of research data, all contributing to better patient outcomes.
Olivia is an AI-enabled personal health concierge app designed for patients and caregivers to help them manage, organize, and proactively control their health data.
Tempus launched a collaboration with BioNTech for real-world data usage and received FDA clearance for its AI-based Tempus ECG-AF device to identify patients at risk of atrial fibrillation.
AI accelerates the identification of novel therapeutic targets, enhancing the speed and accuracy of treatment development in precision medicine, which is critical in improving patient outcomes in complex diseases.